Signal Allocation TRIZ Cases

A MU-MIMO setup frame notifies multiple devices of upcoming transmissions over directional channels.

Determines separate resource sets for D2D control and data transmission to guarantee reliability under varying TDD uplink-downlink subframe ratios.

Terminal device determines a transmission beam for the physical uplink shared channel using spatial information from the control channel.

Downlink control signals carry identification information to distinguish multiplexed data signals, resolving interference between paired user equipment.

A mobile terminal predicts channel state information using a neural network with coarse and fine transformer layers.

A directional listen-before-talk mechanism evaluates channel states using beam gain discovery to assess unlicensed spectrum access accurately.

A trigger frame allocates uplink resources for station transmissions.

Configures time unit structures with variable start positions and region lengths to resolve trade-offs between adaptability and device complexity.

A communications device switches between transmission and reception modes based on signal characteristics.

Segments physical resource blocks for sidelink feedback channels to resolve complexity in carrier aggregation scenarios.

User equipment acts as a relay to transmit interference management data between base stations, bypassing direct over-the-air signal decay.

A serving cell generates a bitmap indicating measurement gap timing for beamformed and neighbor cells to reduce unnecessary UE measurements.

A downlink non-access stratum transport mechanism processes multiple payload containers by routing them to respective upper layers.

A second signal configuration converts initial uplink slots into downlink symbols during network node transitions.

User equipment devices employ frequency division multiplexing across distinct antenna panels to receive radio resource management signals alongside non-management signals.

Sidelink control information format enables user equipment to exchange resource selection data directly.

A terminal control section determines transmission schemes for physical downlink channels based on received information.

Allocation signaling selects resource schemas to reduce interference and congestion in dense wireless networks.

Segmenting control and data regions in shortened transmission time intervals reduces resource allocation complexity while maintaining low latency.

A user equipment timer triggers scheduling request transmission via random access to eliminate waiting delays caused by scarce downlink feedback resources.

Dynamic data aided phase tracking reference signal configuration improves throughput by approximately 4 percent while conserving network resources.

A terminal identifies non-transmittable resource elements using a reference subframe to determine available transmission resources.

Configurable thresholds limit overlapping PDCCH candidates monitored by a user equipment, reducing device complexity and power consumption.

A synchronization symbol and protection symbol arrangement in FBMC systems reduces signal cost.

Base station and UE determine PDCCH resource location using shared generation information to enable network access.

User equipment executes independent minimization of driving test operations across multiple base stations using dedicated signaling radio bearers.

A narrowband physical random access channel design using 312.5 Hz subcarrier spacing and length-491 Zadoff-Chu sequences.

Second devices transmit flooded messages using common reference signals derived from message identification numbers.

Network node evaluates backhaul delay to select semi-static or dynamic HARQ-ACK codebook, reducing feedback latency and process exhaustion.

Radio access network nodes transmit discontinuous transmission indicators alongside retransmission data indicators across multiple MIMO layers.

Configuring transmission configuration indicator states on physical sidelink control channels enables user equipment to relay communications via multiple transmission reception points.

Distinct demodulation reference signal patterns indicate channel state information report settings, improving beam management reliability for unicast channels.

Transmitter circuitry sets secondary frame duration relative to primary and response frames, resolving collision risks in mixed duplex systems.

Scaling resource elements for piggyback downlink control information reduces block error rates on the physical downlink shared channel.

A base station determines a scheduling duty cycle based on user equipment feedback to limit data processing rates.

Network node configures distinct downlink reference signals per transmission point, enabling accurate uplink timing derivation without full synchronization.

Group information associates reference signals with specific panels, reducing beam management complexity while maintaining high channel capacity.

Dynamic subframe configuration manages uplink and downlink channel placement to reduce guard periods and improve wireless resource utilization.

A UDP control command transmission method uses acknowledgement packets to confirm data receipt.

A Bandwidth Part configuration method enables User Equipment to select available sub-bands for random access procedures.

Segmenting frequency hopping areas prevents resource conflicts between M-PUSCH extended TTI and PUSCH 1 ms TTI transmissions.

A terminal device receives system information and downlink control information to determine transport block size scaling for physical downlink shared channel reception.

A user equipment selects a DeModulation Reference Signal sequence to transmit a scheduling request message on dedicated resources.

Multi-slot PDCCH monitoring configures search space sets across consecutive non-overlapping slots to optimize user equipment power consumption.

A terminal device shares overlapping time slots between intra-frequency measurement and measurement gaps, reducing scheduling interruptions during handovers.

A unified TCI state framework configures wireless devices with multiple transmission states for simultaneous multi-panel uplink.